Citrus plants belonging to the family Rutaceae which include fruits such as orange, mandarin, lime, lemon, sour orange and grapefruitappear as a well known promising source of multiple beneficial nutrients for human beings. Processing of citrus by-products potentially represents a rich source of phenolic compounds and dietary fibre, owing to the large amount of peel produced. These citrus fruit residues, which are generally discarded as waste in the environment, can act as potential nutraceutical resources. Due to their low cost and easy availability such wastes are capable of offering significant low-cost nutritional dietary supplements. The utilization of these bioactive rich citrus residues can provide an efficient, inexpensive, and environment friendly platform for the production of novel nutraceuticals or for the improvement of older ones. This review systematically summarized the potential components present in citrus peel, which generally discarded as waste

In the present era, food scientists are concerned about exploiting functional crops with nutraceutical properties. Buckwheat is one of the functional pseudocereals with nutraceutical components used in the treatment of health‐related diseases, malnutrition, and celiac diseases. As a preferred diet as a gluten‐free product for celiac diseases, buckwheat is a good source of nutrients, bioactive components, phytochemicals, and antioxidants. The general characteristics and better nutritional profile of buckwheat than other cereal family crops were highlighted by previous investigations. In buckwheats, bioactive components like peptides, flavonoids, phenolic acids,d‐fagomine, fagopyritols, and fagopyrins are posing significant health benefits. This study highlights the current knowledge about buckwheat and its characteristics, nutritional constituents, bioactive components, and their potential for developing gluten‐free products to target celiac people (1.4% of the world population) and other health‐related diseases.

The recent food-borne microbial outbreaks in the world have led to the search for more innovative ways to inhibit microbial growth in foods that will maintain their quality, freshness, and safety. One of the options, that provides an increased margin of safety and quality in food products is the use of antimicrobial packaging. The next generation of food packaging may include materials with antimicrobial properties. These packaging technologies could play a role in extending the shelf-life of foods and reduce the risk from pathogens. Antimicrobial packaging is a form of active packaging which interacts with the product or the headspace between the package and the food system, to obtain a desired outcome. Antimicrobial packaging has an important effect on food packaging when the shelf-life extension and food safety of food products are taken into consideration. The basic idea behind this technology is the usage of antimicrobial substances in polymeric matrices to target specific microorganisms, in order to achieve higher safety and quality food products with extended shelf life. Various types of antimicrobial substances such as organic acids and their salts, enzymes, bacteriocins, and miscellaneous compounds (triclosan, silver, and fungicides) have been used in synthetic polymers and edible films. Different types of antimicrobial food packaging systems can be constructed by using antimicrobial packaging materials and/or antimicrobial agents inside the package space or inside foods.