Minimally Invasive Neurological Therapy (MINT) represents a groundbreaking approach to treating neurological disorders with minimal tissue disruption. Diverging from traditional surgical methods that necessitate sizable incisions and extensive tissue manipulation, MINT utilizes advanced techniques to access and treat neurological conditions through small incisions or natural body openings. The primary objective is to achieve therapeutic outcomes comparable to conventional surgery while minimizing trauma, postoperative pain, and recovery time. MINT is particularly advantageous for patients with various neurological conditions, including brain tumors, epilepsy, and chronic pain syndromes. Employing specialized tools such as endoscopes and microscopes, surgeons can visualize and access targeted areas of the brain or spinal cord with precision, preserving healthy tissue and reducing damage to critical structures. One notable example of MINT is endoscopic transsphenoidal surgery, which allows surgeons to remove pituitary tumors through the nasal passages without the need for a craniotomy. Another example is endovascular therapy, wherein neurointerventionalists treat neurological conditions through blood vessels using catheters and imaging technology. These minimally invasive techniques offer patients safer, more effective treatment options with faster recovery times. As technology advances, the scope and applicability of MINT in neurology are expected to expand, further enhancing outcomes for patients with neurological disorders.
Title : A case of vile vindictive primary CNS vasculitis
George Diaz, Memorial Healthcare Systems, United States
Title : Novel important cellular responses, signaling mechanisms and therapeutic options in vascular dementia
Yong Xiao Wang, Albany Medical College, United States
Title : The role of beliefs, perception, and behavioural patterns in the evolution of psychophysical disorders
Ken Ware, NeuroPhysics Therapy Institute and Research Centre, Australia
Title : A multiscale systems biology framework integrating ODE-based kinetics and MD-derived structural affinities to model mBDNF–proBDNF-mediated bifurcation dynamics in CNS neurotrophin signaling
Krishna Moorjani, Boston University, United States
Title : A multiscale systems biology framework integrating ODE-based kinetics and MD-derived structural affinities to model mBDNF–proBDNF-mediated bifurcation dynamics in CNS neurotrophin signaling
Abhay Murthy, Boston University, United States
Title : A multiscale systems biology framework integrating ODE-based kinetics and MD-derived structural affinities to model mBDNF–proBDNF-mediated bifurcation dynamics in CNS neurotrophin signalling
Ethan Liu, Boston University, United States