11th World Congress on
Neurology and Therapeutics

Clinical neurology focuses on the diagnosis and management of disorders that affect the nervous system, including the brain, spinal cord, peripheral nerves, and muscles. It bridges basic neuroscience research and patient care, aiming to understand and treat conditions such as epilepsy, stroke, movement disorders, and neurodegenerative diseases.

• Track 2.1-Neurological Diagnostic Techniques
• Track 2.2-Movement Disorders
• Track 2.3-Stroke and Neurovascular Disorders
• Track 2.4-Headache and Migraine Management
• Track 2.5-Neuroinfections and Inflammatory Disorders

Advances in clinical neurology play a critical role in improving diagnostic precision, therapeutic interventions, and patient outcomes.

Neuroplasticity refers to the brain's remarkable ability to reorganize and adapt by forming new neural connections in response to learning, injury, or environmental changes. This dynamic process plays a crucial role in recovery following brain injuries, strokes, and neurodegenerative diseases.

• Track 3.1-Role of Neuroplasticity in Recovery
• Track 3.2-Cognitive Training Techniques
• Track 3.3-Neural Regeneration Strategies
• Track 3.4-Brain-Computer Interface Applications
• Track 3.5-Rehabilitation After Brain Injury

Advances in neuroplasticity research are uncovering how targeted therapies, including cognitive rehabilitation and neuromodulation, can enhance brain function and recovery. Understanding neuroplasticity is also key to developing interventions that optimize brain health and prevent cognitive decline.

The brain serves as the body’s command center, overseeing functions such as thinking, movement, emotions, and sensory experiences. Understanding its complex functions is crucial for diagnosing and treating various neurological disorders, including Alzheimer’s, epilepsy, and stroke. Disruptions in brain function can result in cognitive decline, motor impairments, and psychiatric conditions, significantly affecting quality of life.

• Track 4.1-Brain Mapping Technologies
• Track 4.2-Brain Tumors
• Track 4.3-Neural Pathways and Connectivity
• Track 4.4Gut-Brain Axis & Brain Trauma
• Track 4.5-Brain-Machine Interfaces

Advancements in neuroscience are uncovering the underlying mechanisms of these disorders, offering new insights into prevention and therapy. By integrating innovative research and clinical practices, we aim to enhance brain health and develop targeted interventions for better patient outcomes.

Alzheimer’s disease and Parkinson’s disease are two of the most prevalent neurodegenerative disorders, presenting significant challenges to both patients and healthcare providers. Ongoing research in Alzheimer’s aims to identify early biomarkers, improve diagnostic methods, and develop targeted therapies to slow disease progression.

• Track 5.1-Biomarkers in Alzheimer’s
• Track 5.2-Pathophysiology of Parkinson’s
• Track 5.3-Risk Reduction Strategies
• Track 5.4-Neuroinflammation in Alzheimer’s
• Track 5.5-Genetic Risk Factors

Parkinson’s disease management focuses on optimizing motor function through medication, surgical interventions, and rehabilitative therapies, while exploring novel treatments such as gene therapy and stem cell approaches. Advances in both fields are fostering new insights into disease mechanisms, ultimately paving the way for more effective treatments and improved quality of life for patients. These breakthroughs are critical to advancing care in the fight against neurodegeneration.

The intersection of mental health and neurology explores the intricate relationship between the brain’s neurological processes and psychological well-being. Advances in neuroscience are deepening our understanding of how conditions like depression, anxiety, and schizophrenia are rooted in brain function and chemistry. Early diagnosis and targeted treatments, including neurostimulation and psychopharmacology, are revolutionizing care for mental health disorders.

• Track 6.1-Neurological Basis of Depression
• Track 6.2-PTSD and Brain Trauma
• Track 6.3-Neuropsychiatric Disorders
• Track 6.4-Anxiety and Neurological Links
• Track 6.5-Neurostimulation for Mental Health

Research into brain networks, neuroplasticity, and neuroinflammation is uncovering new insights into mental health conditions. By integrating neurology and psychiatry, we aim to provide more effective, holistic approaches for improving patient outcomes and quality of life.

Stroke remains a leading cause of disability worldwide, requiring timely diagnosis and intervention for optimal outcomes. Advanced imaging techniques, such as CT and MRI, are pivotal in accurately diagnosing stroke types and guiding treatment decisions. Early intervention with therapies like thrombolysis and thrombectomy can significantly improve recovery rates.

• Track 7.1-Acute Ischemic Stroke Treatments
• Track 7.2-Hemorrhagic Stroke Advances
• Track 7.3-Risk Factor Management
• Track 7.4-Post-Stroke Rehabilitation
• Track 7.5-Neurovascular Imaging & Stroke Prevention Strategies

Post-stroke rehabilitation focuses on restoring motor function, speech, and cognition, utilizing personalized approaches such as physical therapy and neurostimulation. Ongoing research aims to enhance recovery strategies and develop neuroprotective therapies to minimize long-term disability.

Pediatric neurology is dedicated to the diagnosis and treatment of neurological disorders in children, spanning from infancy to adolescence. It encompasses a wide range of disorders, including epilepsy, genetic syndromes, cerebral palsy, and neurodevelopmental delays. Early intervention is crucial for improving long-term outcomes, with a focus on tailored treatment plans that address both physical and cognitive development.

• Track 8.1-Pediatric Stroke
• Track 8.2-Genetic Neurological Conditions
• Track 8.3-Neonatal Neurology
• Track 8.4-Learning Disabilities and Neurology
• Track 8.5-Pediatric Epilepsy

Advances in neurogenetics and imaging technologies are enhancing the ability to diagnose conditions earlier and more accurately. Research in Pediatric neurology continues to advance therapies aimed at improving quality of life and promoting optimal brain development in children with neurological disorders. Autism Spectrum Disorders.

Epilepsy and seizure disorders are chronic neurological conditions characterized by abnormal electrical activity in the brain, leading to recurrent seizures. Advances in epilepsy research are focusing on better diagnostic techniques, drug-resistant epilepsy treatment options, and personalized care strategies. Innovative therapies, including neuromodulation and surgical interventions, are providing new hope for patients with uncontrolled seizures.

• Track 9.1- Seizure Triggers and Prevention
• Track 9.2-Imaging in Epilepsy Diagnostics
• Track 9.3-Advances in Epilepsy Medications
• Track 9.4-Epilepsy Surgery Innovations
• Track 9.5-Epilepsy and Lifestyle Management

Genetic research is also shedding light on the underlying causes of epilepsy, enabling more precise and early interventions. Ongoing developments aim to improve seizure management, enhance quality of life, and reduce the societal impact of these disorders.

Migraine and chronic headache disorders are debilitating conditions that affect millions globally, impacting both quality of life and productivity. Recent advancements in understanding the neurovascular and genetic mechanisms behind migraines are leading to targeted therapies, including CGRP inhibitors and neuromodulation.

• Track 10.1-Pathophysiology of Migraines
• Track 10.2-Hormonal Influences on Migraines
• Track 10.3-Triggers and Prevention
• Track 10.4-Lifestyle-Based Interventions
• Track 10.5-Chronic Migraine Management & Migraine Treatment Advances

Innovations in non-pharmacological treatments, such as biofeedback and cognitive therapy, provide additional relief options. Ongoing research continues to focus on improving preventive treatments and uncovering more effective solutions for long-term management of headache disorders.

Traumatic Brain Injury (TBI) results from an external force that causes damage to the brain, leading to a wide range of cognitive, emotional, and physical impairments. Advances in neuroimaging and biomarkers are enhancing early diagnosis and personalized treatment approaches, improving recovery outcomes. Effective management includes a combination of surgical interventions, neurorehabilitation, and psychological support tailored to the severity and type of injury.

• Track 11.1-Acute TBI Management
• Track 11.2-Long-Term Cognitive Effects
• Track 11.3-Brain Recovery Mechanisms
• Track 11.4-Sports-Related Brain Injuries
• Track 11.5-Rehabilitation Technologies & TBI in the Elderly

Research into neuroplasticity and neuroprotection is offering promising avenues for improving long-term recovery and minimizing brain damage. Ongoing studies are focused on developing strategies to prevent TBI and optimize rehabilitation for better quality of life post-injury.

Gender differences play a significant role in the presentation, progression, and treatment of neurological disorders. Women and men often experience conditions like Alzheimer's, Parkinson’s, and epilepsy differently, requiring tailored treatment strategies. Hormonal, genetic, and lifestyle factors influence disease outcomes, making personalized care essential. Understanding these distinctions can help optimize therapies, enhance patient responses, and improve long-term recovery. This session explores the latest research and clinical approaches to addressing gender differences in neurological care.

• Track 12.1-Hormonal Effects on Brain Health
• Track 12.2-Neurodegenerative Diseases: Gender-Specific Symptoms and Treatment
• Track 12.3-Gender-Specific Neurological Treatments
• Track 12.4-The Role of Hormones in Neurological Disorders
• Track 12.5-Psychiatric and Neurological Care: Gender Considerations

Neuroinflammation is a key pathological process involved in the onset and progression of many neurological disorders, including Alzheimer’s disease, Parkinson’s disease, and multiple sclerosis. It occurs when the brain’s immune cells, such as microglia, become activated in response to injury, infection, or disease, leading to chronic inflammation. This persistent inflammation can damage neurons, impair brain function, and exacerbate cognitive decline.

• Track 13.1-Multiple Sclerosis Research
• Track 13.2-Neuroinflammatory Pathways
• Track 13.3-Inflammatory Biomarkers
• Track 13.4-Targeted Anti-Inflammatory Therapies
• Track 13.5-Infection-Driven Neurological Diseases

Advances in understanding neuroinflammation are opening new therapeutic avenues, targeting immune responses to reduce brain damage and slow disease progression. Research continues to explore the potential for anti-inflammatory treatments in neurodegenerative and psychiatric disorders.

Neurotoxicology is the study of how toxic substances affect the nervous system, leading to cognitive, motor, and behavioral impairments. Exposure to environmental toxins, drugs, and chemicals can disrupt neural function, causing both short-term and long-term damage to brain cells and neural circuits. Research in neurotoxicology focuses on identifying and mitigating the effects of neurotoxic agents, ranging from heavy metals to pharmaceuticals.

• Track 14.1-Neurotoxic Effects of Heavy Metals
• Track 14.2-Pesticides and Neurological Health
• Track 14.3-Occupational Neurotoxicity
• Track 14.4-Mechanisms of Neurotoxin Action
• Track 14.5-Long-Term Impact of Substance Abuse

Understanding the mechanisms behind neurotoxicity is essential for developing protective strategies and treatments. Ongoing studies aim to uncover safer alternatives and therapies to minimize the impact of neurotoxic exposures on human health.

As we age, maintaining brain health becomes increasingly crucial to prevent cognitive decline and neurodegenerative diseases such as Alzheimer’s and Parkinson’s. Aging affects the brain's structure and function, but lifestyle factors like diet, exercise, and mental stimulation can significantly impact cognitive longevity. Research into neuroplasticity and brain resilience is uncovering ways to promote healthy aging and delay the onset of neurological disorders.

• Track 15.1-Cognitive Decline Prevention
• Track 15.2-Neuroplasticity in Aging
• Track 15.3-Healthy Aging Interventions
• Track 15.4-Parkinson’s in Older Adults
• Track 15.5-Dementia Care Models & Elderly Stroke Care

Preventative measures, including early detection and personalized care, are vital to enhancing quality of life in older adults. The ongoing study of brain health and aging aims to develop strategies that protect cognitive function throughout the aging process.

Neurotherapeutics and diagnostics are at the forefront of advancing neurological care, offering innovative solutions for treating and diagnosing neurological disorders. Cutting-edge therapies, such as gene therapy, stem cell treatments, and personalized medicine, are being explored to address conditions like Alzheimer's, Parkinson’s, and epilepsy.

• Track 16.1- Innovations in Neurotherapeutic Approaches
• Track 16.2- Advances in Neuroimaging and Diagnostic Tools
• Track 16.3- Biomarkers and Genetic Testing in Neurology
• Track 16.4- Personalized Medicine in Neurological Care
• Track 16.5- Innovations in Epilepsy Diagnosis and Treatment

Advances in diagnostic techniques, including advanced imaging, biomarker discovery, and genetic testing, enable early detection and precise treatment planning. These innovations are transforming the way neurological diseases are managed, offering patients more effective and targeted interventions. The future of neurotherapeutics and diagnostics lies in combining technology, research, and clinical expertise to improve patient outcomes.

Neurovascular health focuses on the intricate relationship between the brain's blood vessels and neurological function, emphasizing conditions like stroke, aneurysms, and vascular malformations. Advances in imaging technologies are enabling earlier detection of neurovascular issues, allowing for more precise treatments and interventions.

• Track 17.1-Brain Aneurysms
• Track 17.2-Stroke and Heart Connection
• Track 17.3-Neurovascular Imaging Advances
• Track 17.4-Endovascular Treatments
• Track 17.5-Risk Factor Management & Post-Event Recovery

Timely management of risk factors such as hypertension and diabetes is essential in preventing neurovascular diseases. Research into neurovascular interactions is also advancing the development of neuroprotective therapies to minimize brain damage following strokes or other vascular events. A holistic approach to neurovascular health aims to preserve brain function and improve long-term patient outcomes.

Neuroendocrinology explores the intricate relationships between the nervous system and the endocrine system, emphasizing how hormones affect brain function and behavior. This field examines how neurohormones regulate processes such as stress, metabolism, reproduction, and mood. Disruptions in these systems can lead to neurological disorders, including anxiety, depression, and neurodegenerative diseases.

• Track 18.1-Hormonal Regulation of Brain Function
• Track 18.2-Neurological Effects of Thyroid Disorders
• Track 18.3-Stress and Neural Pathways
• Track 18.4-Hypothalamus and Neurological Disorders
• Track 18.5-Endocrine Tumors and the Nervous System

Advances in neuroendocrinology are providing insights into the role of hormones in brain development, aging, and disease progression. Ongoing research aims to develop targeted therapies that can modulate neuroendocrine pathways to treat a range of neurological and psychiatric conditions.

Neuro-oncology focuses on the diagnosis and treatment of brain and spinal cord tumors, addressing both primary and metastatic cancers. Advances in neuroimaging techniques, such as MRI, PET scans, and advanced CT, have revolutionized the early detection, staging, and monitoring of neuro-oncological conditions. Imaging innovations like functional MRI and diffusion tensor imaging provide precise insights into tumor localization and brain function preservation.

• Track 19.1-Advances in Neuro-Oncological Treatments
• Track 19.2-Role of Functional Neuroimaging in Tumor Diagnosis
• Track 19.3-Molecular Imaging and Biomarker Integration
• Track 19.4-Imaging for Post-Treatment Monitoring
• Track 19.5-AI and Machine Learning in Neuro-Oncological Imaging

These tools enhance surgical planning, guide radiotherapy, and support personalized treatment approaches. The integration of neuro-oncology and cutting-edge imaging techniques is paving the way for improved survival rates and quality of life for patients with neurological cancers.

Neurological rehabilitation focuses on restoring function and improving the quality of life for individuals affected by neurological disorders, injuries, or diseases. It combines advanced therapies, including physical, occupational, and cognitive interventions, tailored to each patient’s needs. Cutting-edge techniques such as virtual reality, robotics, and neuroplasticity-driven approaches are transforming rehabilitation outcomes.

• Track 20.1-Robotics in Neurological Rehabilitation
• Track 20.2-Virtual Reality for Motor Recovery
• Track 20.3-Speech Therapy for Stroke Patients
• Track 20.4-Role of Physical Therapy in Recovery
• Track 20.5-Neuropsychological Support & Long-Term Outcomes in Rehabilitation

The goal is to maximize recovery by enhancing motor skills, cognitive function, and emotional well-being. Neurological rehabilitation represents a multidisciplinary effort to help patients regain independence and adapt to life with long-term neurological challenges.

Nervous system disorders encompass a wide range of conditions affecting the central, peripheral, and autonomic nervous systems. These disorders, such as neuropathies, multiple sclerosis, and autonomic dysfunction, impact motor, sensory, and regulatory functions, often reducing quality of life.

• Track 21.1-Peripheral Nervous System Disorders
• Track 21.2-Autonomic Nervous System Dysfunctions
• Track 21.3-Central Nervous System Disorders
• Track 21.4-Neuromuscular Disorders
• Track 21.5-Genetic and Hereditary Nervous System Disorders

Advances in diagnostics and therapeutics are enabling earlier detection and targeted treatments to address the root causes of these conditions. Understanding the interplay between various components of the nervous system is key to managing and mitigating their effects. Research continues to drive innovations that improve outcomes for individuals living with these complex disorders.

Neural stem cells hold immense potential in regenerative medicine, offering hope for repairing damaged neural tissue in conditions such as spinal cord injuries, stroke, and neurodegenerative diseases. These cells have the unique ability to self-renew and differentiate into various neural cell types, enabling targeted restoration of brain and spinal cord functions.

• Track 22.1-Stem Cell Therapy in Neurology
• Track 22.2-Neural Tissue Engineering
• Track 22.3-Regeneration of Spinal Cord Injuries
• Track 22.4-Ethical Considerations in Neural Stem Cell Research
• Track 22.5-Translational Research in Regenerative Medicine

Advances in stem cell technology and bioengineering are driving innovations in transplantation, disease modeling, and drug discovery. Ongoing research aims to refine the safety and efficacy of these therapies, bringing them closer to clinical application. Neural stem cells are paving the way for groundbreaking treatments that could revolutionize neurological care.

Rare neurological diseases, such as Huntington’s disease, ALS, and Wilson’s disease, present unique challenges due to their low prevalence and complex pathophysiology. These conditions often lack effective treatments, making research into novel therapies and precision medicine crucial. Advances in genetics, biomarkers, and innovative drug development are offering new hope for patients with rare neurological disorders. Collaborative efforts between researchers, clinicians, and patient advocacy groups are accelerating progress in understanding and managing these diseases. Rare neurological diseases are a frontier in neurology, pushing the boundaries of science and medicine to improve patient outcomes.

• Track 23.1-Diagnosis of Rare Disorders
• Track 23.2-Advances in Wilson's Disease
• Track 23.3-Management of Huntington's Disease
• Track 23.4-Challenges in Rare Disease Treatment
• Track 23.5-Role of Genetics in Rare Disorders & Patient Advocacy and Support

Neurosurgery innovations are transforming the way complex brain and spinal conditions are treated, combining precision with advanced technology. Techniques such as robotic-assisted surgery, minimally invasive approaches, and intraoperative imaging are enhancing surgical accuracy and patient recovery. Breakthroughs in neuro-navigation and 3D visualization provide surgeons with unparalleled insights into intricate neural structures. Minimally Invasive Neurosurgery

• Track 24.1-Robotics in Neurosurgery
• Track 24.2-Surgery for Epilepsy: Advances and Outcomes
• Track 24.3-Surgical Approaches to Brain Tumors
• Track 24.4-Deep Brain Stimulation for Movement Disorders
• Track 24.5-Post-Surgical Neurological Care

These advancements not only improve outcomes for conditions like tumors, aneurysms, and epilepsy but also reduce complications and recovery times. Neurosurgery is entering a new era, where cutting-edge tools meet expertise to redefine the possibilities of brain and spine care.

Artificial Intelligence (AI) is revolutionizing the field of neurology by enhancing the diagnosis, treatment, and understanding of neurological disorders. AI-powered tools are being used to analyze medical imaging, identify patterns in brain activity, and predict outcomes for patients with neurological conditions. By integrating AI with neurology, researchers and clinicians can improve precision, speed, and efficiency in patient care. This collaboration holds the potential to uncover new insights into complex brain functions and neurological diseases. As AI continues to evolve, its impact on neurology is expected to grow, leading to more personalized and effective treatments.

• Track 25.1-AI in Neurological Diagnosis
• Track 25.2-Machine Learning for Brain Imaging
• Track 25.3-Predictive Models in Neurology
• Track 25.4-AI for Personalized Treatment Plans
• Track 25.5-AI and Neurological Disease Research
• Track 25.6-Challenges and Future of AI in Neurolog

Case reports and clinical trials are crucial in advancing research in neurology and enhancing patient care. Detailed case studies provide valuable insights into rare conditions, atypical presentations, and novel treatments. Clinical trials, on the other hand, validate the safety and efficacy of emerging therapies, driving evidence-based medicine. Together, they bridge the gap between research and practice, fostering innovation and better outcomes in neurology. These platforms are critical for shaping the future of neurological care and treatment strategies.