Systems Neuroscience is an exciting field which focuses on the study of brain networks and the relationship between them. It aims to understand how the connections between different parts of the brain shape behaviour and how these connections can be manipulated to achieve desired outcomes. At its core, systems neuroscience seeks to combine high-resolution imaging techniques and computing power to gain insights into how the brain works and how it changes over time. Its goal is to better understand the pathways of communication and control inside and between brain regions, as well as how these connections contribute to the emergence of normal behavior. At the root of this field lies the concept of neural circuits. Neural circuits are the pathways of communication in the brain formed by neurons and their connections. Chemical and electrical signals that a given neuron produces are directed towards specific areas of the brain leading to changes in behaviour, such as the movement of a limb or the formation of memories. By understanding how these pathways develop, and how they can be manipulated, researchers can gain insights into the neurobiological basis of behavior. The past two decades have seen considerable advances in technology for monitoring and manipulating neural circuit activity. With advanced imaging techniques that allow for detailed visualization, systems neuroscientists can now identify and study large-scale networks in the brain. Brain imaging also provides evidence for the role of particular circuitry in different behaviors. Manipulating certain brain circuits can lead to changes in behavior or even the emergence of entirely new behaviors. So far, much of the research in systems neuroscience has focused on rodents, but this approach is now being expanded to primates and humans. Researchers are using sophisticated technologies to monitor and modify brain function in individuals, and to gain insight into the brain mechanisms underpinning complex behaviors such as decision-making or addiction. In summary, systems neuroscience is a rapidly advancing field that combines brain imaging, sophisticated experiments, and data analysis to better understand how the brain works and how it can be manipulated to achieve desired outcomes. As such, this field promises to provide key insights into the brain’s inner workings which could be harnessed for a variety of applications.
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 : 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 : 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 : Study of resilience in cases of incest, father-daughter, step-father and step-daughter in the pre-pubber and puberous period among adult women and mothers: How to overcome the traumatisms of an incestuous relationship?
Daniele Lapointe, Laval University, Canada
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