Multifunctional intracranial cortex electrode
An endothelial and multi-functional technology, applied in the field of medical equipment monitoring, can solve problems affecting diagnosis and treatment, EEG signal monitoring error, single function, etc., and achieve the effect of improving monitoring accuracy and diagnosis accuracy
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Embodiment 1
[0050] refer to figure 1 , when the sensing element is a semiconductor pressure sensor 3, the semiconductor pressure sensor 3 is distributed in multiple rows on the sheet substrate 1, and the semiconductor pressure sensor 3 is arranged between every two electrode points 2, and in each row Among them, the distance between the semiconductor pressure sensor 3 and two adjacent electrode points 2 is equal.
[0051] refer to figure 2 , in another possible implementation, the electrode point 2 can be a ring electrode point 2, the semiconductor pressure sensor 3 is embedded in the electrode point 2, and the lower surface of the semiconductor pressure sensor 3 is in contact with the lower surface of the electrode point 2 It is flush, so that after the application is implanted into the brain parenchyma, when monitoring brain waves and intracranial pressure, both the electrode point 2 and the semiconductor pressure sensor 3 can be easily attached to the cerebral cortex without mutual i...
Embodiment 2
[0056] When the sensing element is a flexible pressure sensor 4, the flexible pressure sensor 4 may be a rectangular sheet structure. The flexible pressure sensor 4 has high flexibility and sensitivity, and the flexible pressure sensor 4 is made by encapsulating functional nanomaterials, piezoelectric materials or hybrid micro / nano structures with highly flexible compounds. According to the signal transmission mechanism used by different manufacturing processes, it can be divided into piezoresistive, piezoelectric and capacitive pressure sensors.
[0057] In one possible implementation, refer to Figure 5 , the flexible pressure sensor 4 is distributed in multiple rows on the sheet substrate 1, the flexible pressure sensor 4 is arranged between every two electrode points 2, in each row, the flexible pressure sensor 4 is connected to the adjacent two electrode points 2 are equally spaced.
[0058] refer to Image 6 , the flexible pressure sensor 4 is spliced with the sheet...
Embodiment 3
[0061] When the sensing part is a temperature sensor 5, refer to Figure 8 , the temperature and pressure sensors are distributed in multiple rows on the sheet substrate 1, the temperature and pressure sensors are arranged between every two electrode points 2, and in each row, between the temperature and pressure sensors and two adjacent electrode points 2 distances are equal.
[0062] In another possible implementation, refer to Figure 9 , the electrode point 2 can be an annular electrode point 2, the temperature and pressure sensor is embedded in the electrode point 2, and the lower surface of the temperature and pressure sensor is flush with the lower surface of the electrode point 2, so that after the application is implanted into the brain parenchyma, the When monitoring brain waves and intracranial pressure, both the electrode point 2 and the temperature and pressure sensor can be easily attached to the cerebral cortex without mutual influence.
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