Neuropharmacology is the branch of pharmacology that studies drugs and agents that act upon the nervous system to produce changes in behavior or affect its functioning. It is a rapidly expanding field that is both exciting and ever-challenging as it strives to better understand the complex physiological and biochemical pathways that mediate drug action on the nervous system. It encompasses the study of drug-induced changes in brain structure and function, neurotransmitter systems, ion channels and receptors, and other neural targets. Neuropharmacology is multi-disciplinary, involving chemistry, physiology, neurology, and psychiatry to name just a few disciplines. Neuropharmacology is an evolving field of research that has the potential to alter the way drugs interact with the nervous system. This understanding of how drugs work opens the door to the development of therapeutic agents that can be used to treat neurological disorders. Drug development involves recognizing and targeting the enzymes and pathways involved in neurotransmission, not only for therapeutic purposes, but for the enhancement of cognitive and behavioral functioning. The use of genomics and proteomics in neuropharmacology is helping scientists to identify new molecular targets and to gain an understanding of the biochemical basis of drug action. The study of neuropharmacology can benefit greatly from advances in genetics and neuroscience, as this provides insight into gene regulation, neurotransmitter pathways, and receptor mechanisms. This knowledge can then be used to develop better drug therapies for conditions related to brain dysfunction, such as autism, Alzheimer’s disease, and depression. Neuropharmacology can also lead to the development of drugs to help treat addiction, epilepsy, Parkinson’s disease, stroke, and other neurological diseases. In conclusion, neuropharmacology is an interdisciplinary field that combines the sciences of chemistry, physiology, and neurology to better understand the pharmacology of the nervous system. Understanding how drugs interact with the nervous system can lead to the development of therapies and treatments for a range of neurological diseases and disorders. Advances in genomics and proteomics have proven invaluable in improving our understanding of how drugs interact with neuronal systems, making them a natural part of studies in the field of neuropharmacology.
Title : Perception and individuality in patient cases identifying the ongoing evolution of Myalgic Encephalomyelitis/Chronic Fatigue Syndrome (ME/CFS)
Ken Ware, NeuroPhysics Therapy Institute, Australia
Title : Narrative medicine: A communication therapy for the communication disorder of Functional Seizures (FS) [also known as Psychogenic Non-Epileptic Seizures (PNES)]
Robert B Slocum, University of Kentucky HealthCare, United States
Title : Personalized and Precision Medicine (PPM), as a unique healthcare model through biodesign-driven biotech and biopharma, translational applications, and neurology-related biomarketing to secure human healthcare and biosafety
Sergey Victorovich Suchkov, N. D. Zelinskii Institute for Organic Chemistry of the Russian Academy of Sciences, Russian Federation
Title : Neuro sensorium
Luiz Moutinho, University of Suffolk, United Kingdom
Title : GBF1 inhibition reduces amyloid-beta levels in viable human postmortem Alzheimer's disease cortical explant and cortical organoid models
Sean J Miller, Yale School of Medicine, United States
Title : Traumatic Spinal Cord Injuries (tSCI) - Are the radiologically based “advances” in the management of the injured spine evidence-based?
W S El Masri, Keele University, United Kingdom