Dinga Dinga Virus: A Brief Review Neha, Akash Chauhan, Firoj Tanwar, Tarun Pokhariyal, Lalit Gahlot
The Dinga virus is a novel, mosquito-borne virus within the Flavivirus genus. It was first identified in Africa and is mainly transmitted by the bites of infected mosquitoes to human beings. Common symptoms of the virus include a mild febrile illness characterized by fever, joint pain, rash, and muscle aches. However, Dinga virus often presents as self-limiting; in some cases, though, it may evolve to cause more severe illness. This abstract outlines the virus’s characteristics, transmission dynamics, clinical manifestations, and its potential public health impact, emphasizing the need for continued surveillance and research to better understand and manage its spread.
Postpartum Illness: A Review Jyoti Yadav, Manjeet Singh Yadav, Gurcharan Singh, Tarun Pokhariya, Kajal Sharma
Postpartum illness encompasses all the physical, emotional, and psychological conditions encountered by women following childbirth. Conditions include postpartum depression, anxiety disorders, postpartum psychosis, and physical complications, such as infections, excessive bleeding, and thyroid dysfunction. Commonly linked causes of postpartum illnesses include hormonal changes, stress, and sleep deprivation; however, genetics, environmental factors, and social factors are equally important. Left untreated, these conditions can have a huge impact on maternal well-being, infant care, and family dynamics. Early diagnosis and intervention, including medical treatment, counseling, and social support, are essential to promote recovery and prevent long-term consequences. This article reviews the clinical manifestations, risk factors, diagnostic approaches, and therapeutic strategies for addressing postpartum illness, emphasizing the importance of integrated care to support maternal and family health.
Advancements and Applications of DNA Technology: Revolutionizing Science and Medicine Ritika Saini, Rajat Bhardwaj, Vandana Sharma, Firoj Tanwar, Lalit Gehlot
Recombinant DNA technology enables the manipulation and engineering of genetic material to design tumor-specific antigens that closely mimic molecular markers expressed by cancer cells. This innovation has paved the way for the development of targeted cancer vaccines, which stimulate the immune system to recognize and selectively eliminate malignant cells while minimizing damage to healthy tissues. Compared to conventional treatments such as chemotherapy and radiation therapy, DNA-based approaches offer advantages including reduced toxicity, improved specificity, and the potential for personalized therapy tailored to an individual’s tumor profile.
Furthermore, the integration of high-throughput DNA sequencing and bioinformatics has accelerated the identification of novel antigenic targets, enhancing vaccine design and immunogenicity. Early-stage clinical studies demonstrate encouraging outcomes in terms of safety and immune activation, highlighting the promise of these technologies in clinical applications. However, challenges such as immune tolerance, limited durability of immune responses, and optimization of delivery systems remain significant hurdles. Ongoing research is focused on improving adjuvant systems, refining antigen selection, and developing advanced delivery platforms to maximize therapeutic efficacy. Overall, the rapid evolution of DNA technology is revolutionizing the landscape of cancer treatment, offering innovative, targeted, and less invasive strategies that hold great potential to improve patient outcomes and redefine the future of precision medicine.


