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Abstract The growing need for innovative drug delivery systems has led to extensive research to address the limitations associated with conventional dosage forms. Lipid nanoparticles have become prominent as frontline nanocarriers for the delivery of drugs and vaccine formulations. However, the pursuit of new materials and modifications to improve lipid nanocarrier properties remains ongoing. In this context, transethosomes have gained attention as a promising solution, offering distinct advantages over traditional formulations. Transethosomes minimize plasma fluctuations, first‐pass metabolism, organ toxicity, and poor bioavailability. This comprehensive review provides an in‐depth exploration of transethosomes, starting with an overview of the impact of formulation components on their properties and effective targeting. This article delves into the production techniques and evaluation properties employed to ensure efficient drug delivery. A significant contribution of this review lies in the analysis of various routes of administration for transethosomes, including transdermal, transvaginal, pulmonary, and ocular delivery, showcasing the versatility of transethosome‐loaded with drugs and their potential to target specific tissues to achieve controlled release. Furthermore, the potential of functionalization and photodynamic therapy approaches to enhance drug delivery efficacy are explored. Overall, this review emphasizes the significant potentiality of transethosomes as a promising drug delivery system addressing the challenges associated with conventional drug delivery approaches.

Abstract Cancer is one of the most prevailing causes of mortality worldwide. Standard therapies for cancer patients include surgical intervention, chemotherapy, and radiotherapy. Nevertheless, chemoresistance and toxicity are clinical implications of advanced disease. New treatments are obliged to overcome these challenges. According to clinical investigations, melatonin (MLT) has the potential to prevent and cure cancer. It is nontoxic and has a plethora of anticancer properties including apoptosis, antiangiogenic, antiproliferative, and metastasis‐inhibitory mechanisms. It enhances the therapeutic sensitivity of malignancies when coupled with conventional medications. The investigations that demonstrate how MLT possesses antitumor characteristics are reviewed in this manuscript. We provided an overview of recent research on the etiology, factors associated, therapeutic property of MLT on various cancer types. We discussed the clinical implications of MLT alone or in conjunction with chemotherapeutic drugs or radiation therapy. Furthermore, we have addressed the mechanisms of its anticancer activities against several types of cancers along with research findings of various investigations done by researchers and advancements in the field of nanotechnology for efficient delivery of MLT. The recent clinical investigations of MLT in various cancer types are reported in this review.

Cancer is characterized by the uncontrolled growth of cells that also metastasis, owing to the mutation in p53 (tumor suppressor gene), making cancer a deadly disease. Though Chemotherapy, Photothermal therapy (PTT), and Photodynamic therapy (PDT) have promising results, acute side effects such as light sensitivity, immune system suppression, and weakness associated with these treatments demand a new strategy that can ameliorate the drawbacks associated with the same. In this regard, Nanobubble therapy (NBT) plays a vital role in plasmonic nanoparticles killing cancer cells by disrupting the cancer cell membrane. As NBT targets only the cancer cells, the side effects associated are almost nil or significantly less compared with Chemotherapy, PTT, and PDT. This article reviews the rationale and significance of NBT over other therapies while providing insight into the metal-based nanobubble systems and their biological applications.

The viral infection spreads with the assistance of a host. Traditional antiviral therapies cannot provide long-term immunity against emerging and drug-resistant viral infections. Immunotherapy has evolved as an efficient approach for disease prevention and treatment, which include cancer, infections, inflammatory, and immune disorders. Immunomodulatory nanosystems can dramatically enhance therapeutic outcomes by combating many therapeutic challenges, such as poor immune stimulation and off-target adverse effects. Recently, immunomodulatory nanosystems have emerged as a potent antiviral strategy to intercept viral infections effectively. This review introduces major viral infections with their primary symptoms, route of transmission & targeted organ, and different stages of the viral life cycle with respective traditional blockers. The IMNs have an exceptional capacity for precisely modulating the immune system for therapeutic applications. The nano sized immunomodulatory systems permit the immune cells to interact with infectious agents enhancing lymphatic drainage and endocytosis by the over-reactive immune cells in the infected areas. Immune cells that can be modulated upon viral infection via various immunomodulatory nanosystems have been discussed. Advancement in theranostics can yield an accurate diagnosis, adequate treatment, and real-time screening of viral infections. Nanosystem-based drug delivery can continue to thrive in diagnosing, treating, and preventing viral infections. The curative medicine for remerging and drug-resistant viruses remains challenging, though certain systems have expanded our perception and initiated a new research domain in antiviral treatments.