Sürdürülebilir Kalkınma Amaçları

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• Derleme MakaleAçık Erişim2025Scopus SJRQ1/r/bayburt/10843
  Evaluation of the Effect of Sustainable Drying Techniques and Intensification Technologies on Color Profile of Dehydrated Fruits and Vegetables

  Süfer, Ozge; Koç, Gulsah Caliskan; Öztekin, Sebahat; Karabacak, Azime Ozkan; Su, Dianbin; Wang, Deqing; Eroglu, Salih; Malçok, Senanur Durgut; Uslu, Ulku Hilal; Adal, Samiye

  This research investigates the effects of various drying procedures and intensification technologies on the color profile of dried fruits and vegetables. The primary goal is to identify the most effective techniques for minimizing degradation, which is frequently caused by exposure to heat, oxygen, and longer drying durations, while retaining the original color of these products. Although conventional techniques like sun and hot air drying are often employed, enzymatic and non-enzymatic brownings usually cause a considerable loss of color. New technologies aim to better preserve the original color by cutting down on processing temperature and drying time. The paper also looks at the possibilities of hybrid drying approaches, which combine techniques such as infrared hot air drying and microwave hot air drying. These methods have been demonstrated to be especially successful in preserving color integrity and enhancing drying process effectiveness. The results highlight the vital significance that parameter optimization and drying technique selection play in maintaining the nutritional value and aesthetic appeal of dehydrated fruits and vegetables. This study emphasizes the significance of developing drying technologies to satisfy consumer desires for premium, aesthetically pleasing food goods, because color is a major factor in determining consumer acceptance and perceived product quality. With wider implications for food preservation and the food industry overall, this work helps to develop more effective and efficient drying processes by shedding light on how various drying techniques affect color retention.

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  AtıfScopus26·WoS27·OpenAlex24

  İncele
• Derleme MakaleAçık Erişim2025Scopus SJRQ1/r/bayburt/14072
  Using synthetic biology to understand the gut-brain axis

  Cesaro, Angela; Broset, Esther; Salimando, Gregory J.; Oztekin, Sebahat; Mai, David; Bennett, Mariko L.; de la Fuente-nunez, Cesar

  Extensive research supports a pivotal role for the gut-brain axis(i.e., the communication pathway between the bacteria in the gut and the brain) in brain health and disease. The interplay between the gut microbiota and the mammalian nervous system appears to shape both adaptive and dysfunctional neurological processes, as it directly affects neurons and neural signaling, the immune response, and metabolism via its effects on hormones, neuropeptides, and neurotransmitters. This review summarizes key findings from the recent literature focused on the interactions between neurons and gut bacteria. By focusing on synthetic biology tools currently employed to study the gut-brain axis, we can enhance our understanding of neuroactive substances released in the gut and potentially identify select molecular candidates that may facilitate the development of personalized therapies.

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  AtıfWoS6·OpenAlex6

  İncele
• Kitap BölümüYalnız künye2025/r/bayburt/13153
  Microbial Production of Galactooligosaccharides

  Durgut Malçok, Senanur; Öztekin, Sebahat; Adal, Samiye; İnan Çınkır, Nuray; Çelebi, Yasemin; Çalışkan Koç, Gülşah; Özkan Karabacak, Azime; Süfer, Özge; Delikanlı Kıyak, Berrak

  Galactooligosaccharides (GOSs) are prebiotic compounds derived from lactose, known for their ability to selectively promote the growth of beneficial gut microbiota, like bifidobacteria and lactobacilli. Their physiological benefits include enhanced gut health, improved immune function, and increased mineral absorption. Produced primarily through enzymatic synthesis using microbial β-galactosidases, GOSs offer an efficient and environmentally friendly alternative to chemical production methods. Recent advancements in enzyme immobilization and biotechnological approaches have optimized GOS yields, enabling their incorporation into a variety of food and health applications, including infant formulas, dairy products, and clinical supplements. The structural diversity of GOSs, characterized by their glycosidic linkages and degrees of polymerization, contributes to their functional versatility and prebiotic efficacy. Furthermore, their stability under acidic and high-temperature conditions makes them suitable for industrial processes. Despite these advancements, challenges such as cost reduction, process optimization, and the use of alternative substrates persist. Future research on enzyme engineering and tailored GOS formulations is anticipated to address these issues, expanding their applications in functional foods, nutraceuticals, and personalized health solutions. GOSs remain a promising tool for improving health and meeting diverse nutritional needs.

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  İncele
• Kitap BölümüYalnız künye2025/r/bayburt/12981
  Size enlargement and agglomeration processes

  Karabulut, Gulsah; Ozkan, Gulay; Köroğlu, Deniz Günal; Öztekin, Sebahat

  Agglomeration and size enlargement are essential in the food industry, significantly improving material handling, product performance, and process efficiency. This chapter explores the principles, techniques, and machinery involved in agglomeration, focusing on objectives such as enhancing flowability, reducing dust, and improving product quality. Key agglomeration techniques—including pelletizing, briquetting, granulation, prilling, spray drying, and extrusion—are explained, with a focus on their underlying mechanisms, the principles of particle size enlargement, and the factors influencing the process. This chapter also examines the role of binders, exploring how they, along with various additives, contribute to improved properties of the final product. The types of equipment, such as disc pelletizers, drum granulators, and high-shear mixers, are discussed in terms of benefits, limitations, and industry applications. Additionally, advancements in smart control systems, energy-efficient designs, and modular equipment are highlighted, illustrating the latest innovations in agglomeration technology.

  İncele
• Kitap BölümüAçık Erişim2025/r/bayburt/11866
  Lipid-protein interactions in food systems: Mechanisms, thermodynamics, and analytical approaches

  Öztekin, Sebahat; Uzun, Suzan; Köroğlu, Deniz Günal; Bilgin, Ayşenur Betül; Gökşen, Gülden

  This chapter provides a comprehensive overview of lipid-protein interactions in food systems, focusing on their physicochemical mechanisms, analytical techniques, and implications for food quality, nutrition, and functionality. These interactions, governed by hydrophobic, electrostatic, hydrogen bonding, and van der Waals forces, are influenced by multiple factors such as pH, temperature, and ionic strength during food processing. Both experimental techniques, including spectroscopy (fluorescence, CD, FTIR), calorimetry (ITC, DSC), microscopy (CLSM, SEM), and gel electrophoresis, as well as computational approaches such as molecular dynamics simulations and molecular docking are used to characterize the structural, thermodynamic, and dynamic properties of these interactions. Lipid-protein interactions affect key lipid characteristics such as chemical stability, solubility, and gastrointestinal behavior, while also modulating protein properties like digestibility, thermal stability, gelling, foaming capacity, phosphorylation, and aggregation. Moreover, these interactions can influence health-related outcomes, including lipid oxidation, cholesterol metabolism, and allergenicity. Understanding these interactions provides valuable insights for the development of novel and functional food products with enhanced stability and bioavailability. The dynamic nature of lipid-protein interactions necessitates continued research using integrated experimental and computational approaches to optimize their role in modern food systems.

  İncele
• MakaleYalnız künye2025Scopus SJRQ2/r/bayburt/11806
  A novel exopolysaccharide from cold-adapted yeast Rhodotorula glutinis, along with structural, rheological, antioxidant, and antibiofilm properties

  Oztekin, Sebahat; Dikmetas, Dilara Nur; Karbancıoglu-Guler, Funda

  In the present study, a novel exopolysaccharide EPS-BMD26 produced by cold-adapted yeast Rhodotorula glutinis was structurally examined, along with its rheological, antioxidant, and antibiofilm properties. High-performance liquid chromatography (HPLC) analysis revealed glucose and galactose as two monosaccharide constituents. The functional groups within the EPS-BMD26 structure were detected by Fourier transform infrared (FT-IR) spectroscopy. The 1H and 13C nuclear magnetic resonance (NMR) spectra of EPS-BMD26 also confirmed its β-D-glucan type with galactose residues with an average molecular weight of 118 kDa. Differential scanning calorimetry (DSC) analysis revealed that EPS-BMD26 had a high level of thermal stability, up to 326.16 °C. Scanning electron microscopy (SEM) analysis demonstrated that EPS-BMD26 had a porous microstructure with fissures. X-ray diffraction (XRD) analysis revealed its semi-crystalline nature. EPS-BMD26 showed moderate and concentration-dependent antioxidant potential recruiting different methods, including •OH, DPPH•, CUPRAC, and ABTS radical scavenging activities. Water-soluble EPS-BMD26 exhibited high water holding capacity of 190 ± 0.22% with a water solubility index of 60.6 ± 8.3%. At 1.25 mg mL-1, EPS-BMD26 inhibited biofilm formation of Staphylococcus aureus ATCC 25923 by 79.5%. Rheological characterization revealed that the aqueous solution of EPS-BMD26 had shear thinning and pseudoplastic behavior. Given these properties, EPS-BMD26 may be a promising bio-hydrocolloid, antibiofilm agent, and food additive for industrial applications.

  AtıfScopus15·WoS15·OpenAlex17

  İncele
• Derleme MakaleAçık Erişim2025Scopus SJRQ1/r/bayburt/11471
  Effects of plant-derived antioxidants to the oxidative stability of edible oils under thermal and storage conditions: Benefits, challenges and sustainable solutions

  Yildiz, Aysun Yurdunuseven; Öztekin, Sebahat; Anaya, Katya

  The stability of edible oils significantly influences their quality, safety, and shelf life. While synthetic antioxidants have traditionally been used, the growing consumer interest in food safety and sustainability has shifted focus towards natural alternatives. Plant-derived antioxidants offer a promising solution, enhancing oxidative stability while meeting clean-label demands. This review examines recent advancements in using plant-derived antioxidants, such as extracts, essential oils, and agro-industrial by-products, to inhibit lipid peroxidation and improve edible oils' oxidative and thermal stability. Natural antioxidants from peels, seeds, spices, fruits, and vegetables effectively reduce hydrolysis, polymerization, and secondary oxidation products. Despite their potential, challenges remain, including impacts on sensory attributes, regulatory compliance, and the need for standardized extraction and application protocols. Addressing these limitations can advance sustainable food preservation and encourage the integration of natural antioxidants in the food industry, contributing to a more sustainable economy and shelf life.

  AtıfScopus51·WoS51

  İncele
• Derleme MakaleAçık Erişim2025Scopus SJRQ1/r/bayburt/11295
  Thawing frozen foods: A comparative review of traditional and innovative methods

  Çalışkan Koç, Gülşah; Özkan Karabacak, Azime; Süfer, Özge; Adal, Samiye; Çelebi, Yasemin; Delikanlı Kıyak, Berrak; Öztekin, Sebahat

  Due to the changing consumer lifestyles, the tendency to adopt foods that require less preparation time and offer both variety and convenience has played a significant role in the development of the frozen food industry. Freezing is one of the fundamental food preservation techniques, as it maintains high product quality. Freezing reduces chemical and enzymatic reactions, lowers water activity, and prevents microbial growth, thereby extending the shelf life of foods. The freezing and thawing procedures directly impact the quality of frozen foods. The degree of tissue damage is determined by the freezing rate and the structure of the ice crystals that form during the freezing process. Generally, thawing occurs more slowly than freezing. During thawing, microorganisms, as well as chemical and physical changes, can cause nutrient damage. Thus, the goal of this review is to identify innovative and optimal thawing strategies. In order to save energy and/or improve quality, new chemical and physical thawing aids are being developed alongside emerging techniques such as microwave-assisted, ohmic-assisted, high pressure, acoustic thawing, and so on. In addition to discussing the possible uses of these technologies for the thawing process and their effects on food quality, the purpose of this study is to present a thorough comparative overview of recent advancements in thawing techniques.

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  AtıfScopus58·WoS50·OpenAlex52

  İncele
• Kitap BölümüYalnız künye2025/r/bayburt/10909
  Electrosprayed particles for improved delivery of carotenoids, vitamins, and minerals

  Öztekin, Sebahat; Najafi, Zahra; Cetinkaya, Turgay; Ayseli, Mehmet Turan; Aslan, Ismail; Göksen, Gülden; Delshadian, Zohre

  Carotenoids, vitamins, and minerals have vital roles for living organisms, yet they often remain underutilized due to their poor solubility, limited stability, and low bioavailability. Thanks to electrospraying technology, innovative solutions are available to overcome these challenges compared to conventional delivery systems. Therefore, this book chapter provides comprehensive information on the principles, mechanisms, electrospraying techniques, effective parameters on particle formation and properties, regulatory aspects, and in vitro/in vivo particle delivery systems of electrosprayed carotenoids, vitamins, and minerals. The chapter is structured into five main sections. The first section gives a brief introduction to electrospraying technology and electrosprayed particles. In the second section, the focus shifts to the fundamentals of electrospray technology and detailing their underlying principles, types, and parameters. The third section delves into the specific uses of electrospraying for xbiotics, phenolic and nonphenolic compounds, with particular emphasis on the applications of electrospraying for the encapsulation of carotenoids and minerals, carotenoids, and taste-related compounds. This section also related to the impact of electrospraying on seafood quality as a good example. The fourth section provides an in-depth analysis of the stability, absorption, and bioavailability improvements of electrosprayed particle delivery systems through in vitro and in vivo studies. The final section addresses regulatory considerations, safety, and future perspectives. It reviews the current regulatory landscape for food additives and dietary supplements, emphasizing the compliance requirements for novel electrosprayed delivery systems. Through detailed scientific insights and practical applications, this chapter paves the way for innovative approaches to electrosprayed particles for improved delivery of carotenoids, vitamins, and minerals.

  İncele
• Kitap BölümüAçık Erişim2024/r/bayburt/13151
  Utilization of Fruit and Vegetable Wastes in Food Packaging

  Yildiz, Aysun Yurdunuseven; Öztekin, Sebahat

  Today, the most preferred materials used in food packaging are non-degradable petroleum-based plastic polymer materials due to their high barrier and mechanical properties. These polymer materials are not sustainable due to limited petroleum resources. These non-biodegradable materials pose a serious problem for the environment and affect the entire ecosystem. In recent years, as an alternative to traditional materials for food packaging, the demand for the development of environmentally friendly packaging materials has increased in order to reduce and/or limit the negative impact on the environment. The increasing interest in environmental issues and human health has led to the investigation of possible matrices for bio-packaging in the field of food packaging. In this context, there is an increasing interest in the utilization of fruit and vegetable wastes such as peels, pips, seeds, and leaves. Fruit and vegetables are among the most widely consumed products worldwide, and their waste is the most abundant food waste. These wastes, which are released after fruit and vegetable processing and contain valuable components, can cause environmental pollution if not managed properly. The management of this large amount of waste is difficult, and it is usually either disposed of in water sources and open storage areas or used as feed or compost. However, these wastes have the potential to be used as raw materials for the development of value-added products. Due to their abundant availability and biodegradability, these wastes can solve the major problems associated with conventional plastics used for food packaging and improve sustainable development and life cycles. A more sustainable and greener world can be targeted with these biodegradable materials. This chapter focuses on the conversion of fruit and vegetable waste into environmentally friendly food packaging systems. The chapter emphasizes the advantages and disadvantages of using fruit and vegetable waste as food packaging material and its potential applications. In this context, all mentioned aspects have been comprehensively reviewed, taking into account the literature reported in the last five years. Before processing fruit and vegetable wastes into packaging materials, some steps, such as extraction and purification, are necessary. Materials derived from these wastes have the potential to be used in food packaging with various advantages, such as non-toxicity, biodegradability, and abundant availability. However, there is also a great debate about the applications of these food packaging materials. Further research is needed to improve the barrier and mechanical properties of packaging materials derived from fruit and vegetable waste. Most bioplastics do not meet the basic requirements of food packaging in terms of barrier and mechanical properties, and various modifications are needed to improve their properties. Therefore, future studies should focus on the necessary research to improve the barrier and mechanical properties of materials derived from these wastes. Finally, the legal framework for the large-scale use of these biomaterials derived from fruit and vegetable wastes in food packaging is insufficient, and this may affect the commercialization and consumer acceptance of the products.

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  AtıfScopus3·OpenAlex3

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