Current Drug Targets - Volume 26, Issue 13, 2025
Volume 26, Issue 13, 2025
-
-
Innovative Strategies and Advances in Drug Delivery Systems to Address Poor Solubility: A Comprehensive Review
More LessPoor solubility remains a significant obstacle in drug administration, adversely affecting the bioavailability and therapeutic efficacy of many drugs. It is also recognized as a primary factor contributing to issues with bioavailability, such as poor, inconsistent, limited, and highly variable bioavailability of marketed products. It is estimated that 40% of marketed drugs face bioavailability challenges primarily due to poor water solubility, and about 90% of pharmacological compounds exhibit poor water solubility in their early development stages. Addressing this issue is crucial for improving drug performance, efficacy, and patient outcomes. This review provides an overview of the challenges associated with poorly soluble drugs, including low bioavailability, limited dissolution rates, inconsistent absorption, decreased patient compliance, formulation difficulties, and associated costs and time constraints. Numerous strategies have been now investigated to tackle the issue of poor solubility. This review offers an updated overview of commonly used macro and nano drug delivery systems, including micelles, nanoemulsions, dendrimers, liposomes, lipid-based delivery systems, microemulsions, cosolvents, polymeric micelle preparation, drug nanocrystals, solid dispersion methods, crystal engineering techniques, and microneedle-based systems. Additionally, the review examines advanced techniques like cyclodextrin-based delivery systems, co-solvency and co-crystallization approaches, polymeric micelles, spray drying, co-precipitation, and amorphous solid dispersion. The role of computational modeling and formulation prediction is also addressed. Recent advancements in protein-based approaches, 3D printing, mesoporous silica nanoparticles, supramolecular delivery systems, magnetic nanoparticles, nanostructured lipid carriers, and lipid-based nanoparticles are highlighted as novel solutions for enhancing the solubility of poorly soluble drugs. The review concludes with predictions for the future, emphasizing the potential for further innovation in drug delivery methods to overcome the challenges associated with poorly soluble drugs.
-
-
-
Development of Novel Intravesical Formulation for Bladder Retention Targeting Bladder Disorders
More LessAuthors: Varsha Harle and Yogeeta O. AgrawalNumerous bladder-related diseases, including urinary blockages, interstitial cystitis, overactive bladder syndrome, cancer, and infections of the urinary tract, can affect bladder function. The human urinary bladder's distinct anatomy successfully prevents any hazardous material from entering circulation. The pathogenesis was assessed according to the extent of invasion in the bladder wall tissue obtained through Transurethral Resection of Bladder Tumor (TURBT) and classified as Muscle-Invasive and Non-Muscle Invasive Bladder Cancer (MBIC and NMIBC). Intravesical Drug Delivery (IDD) has recently gained attention for treating bladder disorders. IDD refers to the insertion of a drug directly into the bladder using a catheter. Intravesical administration of immunotherapy or chemotherapy has been demonstrated to reduce recurrence rates and inhibit disease progression. In addition, several other systems, including recombinant BCG, gene therapy, vectors, and Antibody-Drug Conjugates (ADCs), are now used. Moreover, the novel intravesical formulations of distinct chemotherapeutic agents, including gemcitabine, Doxorubicin (DOX), and Mitomycin C (MMC), are used in bladder-related problems. Novel intravesical drugs, polymeric hydrogels, dendrimers, hydrogels, mucoadhesives, nanocarriers, and intravesical devices have been discussed. Aside from chemotherapy and immunotherapy, devices such as GemRIS, device-assisted hyperthermic intravesical chemotherapy, and photodynamic therapy are utilized.
-
-
-
Role of Artificial Intelligence in Nanomedicine and Organ-specific Therapy: An Updated Review
More LessBackgroundIn organ-specific therapy, artificial intelligence (AI) is primarily used to improve surgical planning through image analysis, predict post-transplant outcomes, personalize treatment plans based on patient data, optimize organ allocation logistics, and donor-recipient precision mapping for organs to improve transplants. Furthermore, all these applications ultimately lead to better patient outcomes and enhanced organ therapy.
ObjectiveThis review aims to examine the revolutionary effects of AI in some key healthcare fields, such as nanomedicine, cancer treatment, clinical applications, and organ-specific delivery.
MethodsThis review article discusses in detail the role of AI in nanomedicine, cancer therapy, clinical applications, organ-specific delivery (e.g., cardiovascular, gastroenterology, kidney, liver, lung, ophthalmology, skin, etc.), diagnosis, and radiotherapy. In addition, it also discusses limitations and challenges of AI in healthcare.
ResultsAI-based clinical translation has potential but faces challenges like artifact vulnerability, ethical and legal considerations, and security measures. Restrictive data-use policies may hinder accurate analysis. Regulations and collaboration with data-sharing mechanisms could overcome barriers.
ConclusionAI is being utilized in organ-specific therapy to enhance donor-recipient matching, surgical planning, post-transplant outcomes prediction, and personalized treatment plans by analyzing patient data.
-
-
-
Gut-Brain Dialogues in Fruit Fly (Drosophila melanogaster): How Peptide Hormones Bridge Metabolism, Longevity, and Behavioral Adaptation
More LessAuthors: Mengzhe Tian, Shushen Sun, Qinghao Meng, Jingyi Li, Xinyi Li, Suxia Ren, Zengyi Huang, Shaoshan Du and Yiwen WangBackgroundGut-peptide hormones are crucial regulators of various physiological processes, including metabolism, digestion, behavior, and homeostasis. In Drosophila melanogaster, a widely used model organism, a diverse range of gut-peptide hormones governs gut-brain communication, influencing food intake, energy balance, circadian rhythms, stress responses, and aging.
ObjectiveThis review summarizes recent studies on gut-peptide hormones in D. melanogaster, focusing on their mechanisms of action, interactions with other signaling pathways, and their relevance to human orthologs.
MethodsThe PubMed database was searched for studies on gut-peptide hormones in D. melanogaster published in the past decade.
ResultsThe functions of D. melanogaster gut-peptide hormones were reviewed, including DH31, Bursicon (Burs), Tachykinins (Tks), Hedgehog (Hh), Pigment-dispersing factor (PDF), Neuropeptide F (NPF), Short neuropeptide F (sNPF), Allatostatins (ASTs), CCHamides (CCHa), and Limostatin (Lst). These hormones regulate key physiological processes such as digestion, energy homeostasis, and metabolism through conserved pathways.
ConclusionDrosophila melanogaster gut-peptide hormones are fundamental regulators of health and disease. They are conducive to exploring conserved mechanisms for developing treatments against human metabolic and aging disorders.
-
Volumes & issues
-
Volume 26 (2025)
-
Volume 25 (2024)
-
Volume 24 (2023)
-
Volume 23 (2022)
-
Volume 22 (2021)
-
Volume 21 (2020)
-
Volume 20 (2019)
-
Volume 19 (2018)
-
Volume 18 (2017)
-
Volume 17 (2016)
-
Volume 16 (2015)
-
Volume 15 (2014)
-
Volume 14 (2013)
-
Volume 13 (2012)
-
Volume 12 (2011)
-
Volume 11 (2010)
-
Volume 10 (2009)
-
Volume 9 (2008)
-
Volume 8 (2007)
-
Volume 7 (2006)
-
Volume 6 (2005)
-
Volume 5 (2004)
-
Volume 4 (2003)
-
Volume 3 (2002)
-
Volume 2 (2001)
-
Volume 1 (2000)
Most Read This Month