Andere Kunden interessierten sich auch für
![Radiation Exposure and Image Quality in Brain CT Examination]( "Radiation Exposure and Image Quality in Brain CT Examination")
Radiation Exposure and Image Quality in Brain CT Examination36,99 €![Rate Alterable Traumatic Brain Injury Device for Rodent Models]( "Rate Alterable Traumatic Brain Injury Device for Rodent Models")
Rate Alterable Traumatic Brain Injury Device for Rodent Models40,99 €![3D Fractal Generation]( "3D Fractal Generation")
3D Fractal Generation36,99 €![3D Numerical Simulation of Experiments on Masonry Arch Bridges]( "3D Numerical Simulation of Experiments on Masonry Arch Bridges")
3D Numerical Simulation of Experiments on Masonry Arch Bridges32,99 €![3D PRINTING AND ITS APPLICATIONS]( "3D PRINTING AND ITS APPLICATIONS")
3D PRINTING AND ITS APPLICATIONS24,99 €![The 3D DAAS meshfree method for fracture and damage in concrete]( "The 3D DAAS meshfree method for fracture and damage in concrete")
The 3D DAAS meshfree method for fracture and damage in concrete36,99 €![Sub-surface geology, hydrothermal alteration and 3D modeling of wells]( "Sub-surface geology, hydrothermal alteration and 3D modeling of wells")
Sub-surface geology, hydrothermal alteration and 3D modeling of wells36,99 €
Neuroprosthetic devices that can record neural activities and stimulate the central nervous system (CNS), called brain-machine interfaces (BMI), offer significant potential to restore various lost neurologic functions. A key element in functions restoration is Microelectrode arrays (MEAs) implanted in neural tissues. MEAs, which act as an interface between bioelectronic devices and neural tissues, play an important role in chronic implants and must be reliable, stable, and efficient for long-term recording and stimulation. Electrochemical properties and biological compatibility of chronic microelectrodes are essential factors that must be taken into account in their design and fabrication.