Constructing and monitoring method for nanosecond pulse electric field ablation dynamic monitoring system
A nanosecond pulse and dynamic monitoring technology, applied in biochemical equipment and methods, stress-stimulated microbial growth methods, measuring devices, etc., can solve the problems of inability to accurately monitor surface discharge and surface burns of targeted tissues in real time, and achieve improvement Environmental noise and non-targeted thermal effects, enhanced electric field induction effects, and skin burn avoidance effects
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Embodiment 1
[0072] A method for constructing a dynamic monitoring system for nanosecond pulsed electric field ablation process, the steps include:
[0073] 1) Build the insulating modified plate:
[0074] a) doping the polymer resin with ferroelectric ceramic nanoparticles;
[0075] b) wrapping the polar plate with the doped polymer resin and forming it;
[0076] c) performing material polarization on the formed pole plate;
[0077] 2) Set up a nanosecond pulse signal acquisition device,
[0078] a) Arranging insulating modified polar plates of different polarities on both sides of the target tissue, and connecting them to nanosecond high-voltage pulse generators respectively,
[0079] b) Arranging several ultrasonic probes around the target tissue, the acquisition plane of the ultrasonic probes is preferably perpendicular to the pulse direction of the bipolar plates,
[0080] c) connecting each ultrasonic probe with a low-noise amplifier and a signal acquisition device in turn,
[0...
Embodiment 2
[0120] In this embodiment, the method and steps described in Embodiment 1 are used to construct a dynamic monitoring system, and a finite element simulation model is established to perform nanosecond pulse electric field ablation and dynamic monitoring on the target tissue.
[0121] In order to study the relationship between the conductivity of the target tissue and the thermal function, a finite element simulation model was established, as shown in Fig. 2(a). Among them, the size of the external cube of the simulation model is 4*4*3.6cm, and the interior is four cylinders with a radius of 0.2cm and a height of 3.6cm. The simulation results are shown in Figure 2(b)-(c). From the above simulation results, it can be seen that as the conductivity of the target tissue increases, the thermal function generated by it gradually decreases, and the ultrasonic signal generated by the thermal expansion of the tissue will also decrease, so that the target tissue can be observed through th...
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