Background: Artificial intelligence (AI) is an advanced computer technology used in the medical field to elude the errors and enhance effectiveness and efficiency, especially in clinical work. Developing countries can utilize the same models to improve their health care system as the industrialized world. Globally medicine is evolving to the era of "Artificial intelligence", medical education must include these modern technologies and competencies to reform. We intended to determine the attitude of the medical students towards the introduction of AI in Undergraduate Medical Education in District Peshawar. Methods: This cross-sectional descriptive study was carried out among 384 students of two medical colleges in Peshawar, utilizing a convenient sampling technique for data collection. A self-administered questionnaire, with 5 points Likert scale was used to collect data. Data was analyzed through SPSS version (22.2). Results: Majority of the students 61.7% had no previous knowledge of AI. Mean scores for AIs perceived usefulness in Radiology, replacement with human Radiologist, anticipated dominance in clinical practice, willingness for introduction in medical education, excitement to adopt, perceived as a burden, practicability were 1.89, 2.83, 2.76, 2.35, 2.13, 3.18, 2.39 respectively. Conclusion: The positive attitude was seen among medical students regarding the inclusion of Artificial intelligence in undergraduate medical education.

Brain stimulation techniques offer powerful means of modulating the physiology of specific neural structures. In recent years, non-invasive brain stimulation techniques, such as transcranial magnetic stimulation (TMS) and transcranial direct current stimulation, have emerged as therapeutic tools for neurology and neuroscience. However, the possible repercussions of these techniques remain unclear, and there are few reports on the incisive recovery mechanisms through brain stimulation. Although several studies have recommended the use of non-invasive brain stimulation in clinical neuroscience, with a special emphasis on TMS, the suggested mechanisms of action have not been confirmed directly at the neural level. Insights into the neural mechanisms of non-invasive brain stimulation would unveil the strategies necessary to enhance the safety and efficacy of this progressive approach. Therefore, animal studies investigating the mechanisms of TMS-induced recovery at the neural level are crucial for the elaboration of non-invasive brain stimulation. Translational research done using animal models has several advantages and is able to investigate knowledge gaps by directly targeting neuronal levels. In this review, we have discussed the role of TMS in different animal models, the impact of animal studies on various disease states, and the findings regarding brain function of animal models after TMS in pharmacology research.

The public health sector and the global economy are facing the challenges of the epidemic of coronavirus disease 19 (COVID-19) since December 2019. Severe acute respiratory syndrome coronavirus-2 (SARS-CoV-2) is an emerging outbreak and spreading rapidly across the globe. The COVID-19 pandemic of unprecedented proportions has devastated almost all countries and pervaded globally. However, various vaccines have been developed to achieve immunity against the virus and limit transmissibility. By 18 November 2021, 52.6% of the world population got first dose of the COVID-19 vaccine. South Asia shares 15% fully vaccinated and 22.6% partially vaccinated population in the world. The 56.5% of South Asian Association Regional Cooperation (SAARC) regions, consisting of Pakistan, Afghanistan, Bangladesh, India, Sri Lanka, Nepal, Maldives, and Bhutan, got the first shot of COVID-19 vaccine, whereas 30.5% were fully vaccinated. India has the highest percentage of the vaccinated population of about 46.5% among SAARC countries. Although South Asian countries have unstable multiple socio-economic factors, including poverty, overpopulation, low literacy about medical care and medical systems, etc., the increasing trend in vaccination status has been observed. The high percentage of health budgets of SAARC countries was utilized for purchasing COVID-19 vaccines. This report observes that South Asian countries have been significantly tackling the threats of COVID-19.

Aging is linked to the deterioration of many physical and cognitive abilities and is the leading risk factor for Alzheimer’s disease. The growing aging population is a significant healthcare problem globally that researchers must investigate to better understand the underlying aging processes. Advances in microarrays and sequencing techniques have resulted in deeper analyses of diverse essential genomes (e.g., mouse, human, and rat) and their corresponding cell types, their organ-specific transcriptomes, and the tissue involved in aging. Traditional gene controllers such as DNA- and RNA-binding proteins significantly influence such programs, causing the need to sort out long non-coding RNAs, a new class of powerful gene regulatory elements. However, their functional significance in the aging process and senescence has yet to be investigated and identified. Several recent researchers have associated the initiation and development of senescence and aging in mammals with several well-reported and novel long non-coding RNAs. In this review article, we identified and analyzed the evolving functions of long non-coding RNAs in cellular processes, including cellular senescence, aging, and age-related pathogenesis, which are the major hallmarks of long non-coding RNAs in aging.

Stroke is a physiological disorder involving a prolonged local interruption of cerebral blood flow. It leads to massive neuronal death and causes short-term or long-lasting functional impairment. Most stroke victims regain some neural function weeks or months following a stroke, but this recovery can plateau six months or more after the injury. The goal of stroke therapy is the rehabilitation of functional capabilities, especially those affecting the patient’s autonomy and quality of life. Recent clinical and animal studies combining acute d-amphetamine administration with rehabilitative training (RT) have revealed that this treatment has significant remedial effects. The review aims to examine the synergistic therapeutic effects of d-amphetamine coupled with RT, administered during the early or late subacute period, on neuronal activation, anatomic plasticity, and skilled motor function in a middle-aged rodent stroke model. The treatment will also include magnetic field stimulation. This review will help increase understanding of the mechanism of d-amphetamine coupled with RT and magnetic field stimulation and their converging therapeutic effects for stroke recovery.